Abomey-Calavi(贝宁)的燃料电池太阳能存储技术

Odilon Joseph Towanou, H. Donnou, G. K. N'Gobi, Augustin Enonsi Leode, Basile Kounouh´ewa
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摘要

西非有大量的太阳能,在5千瓦时m^{-2}之间变化。day^{-1}和7kwh .m^{-2}.day^{-1}。这种电力构成了该地区的高能量来源。然而,由于缺乏适当的技术和开发能源的项目,该地区的几个地点无法获得能源。与太阳能或一般可再生能源有关的根本问题是缺乏有效的能源储存技术。电池通常用于这种存储,但是一旦充电,太阳能光伏板(PV)的多余能量就会丢失。因此,找到一个系统来回收多余的水,以优化其使用是非常重要的。在这种情况下,氢被认为是实现这一功能的非常有前途的候选者,并可能在未来成为一种高度发达的能量载体。在过去的十年中,通过氢燃料电池发电的大量工作证明了这一点。本研究的目的是通过使用燃料电池技术来测试一个更可靠的太阳能存储系统。为了实现这一目标,需要三个步骤:(1)使用材料制造电解槽,(2)使用光伏板系统产生氢气,(3)通过燃料电池将产生的氢气转化为电能。结果表明,反应150 min后,产氢量为0.020 m^3,产率为85.86%。2伏燃料电池的发电效率为0.0042%。即使这个值很低,也有一部分损失的能量被恢复了。鉴于这些结果,改进将化学能转化为电能的装置值得在西非进行深入探索。
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Solar Energy Storage by Fuel Cell Technology at Abomey-Calavi (Benin)
West Africa has a great amount of sunshine power, varying between 5 kWh.m^{-2}.day^{-1} and 7 kWh.m^{-2}.day^{-1}. This power constitutes high energy source in the region. However, several locations in that area have no access to energy because of the lack of suitable technology and projects exploiting the source. The fundamental problem related to sun power or to renewable energies in general is the lack of efficient technology for energy storage. Batteries are generally used for this storage, but once charged, the excess of the energy from the solar photovoltaic panels (PV) is lost. Therefore, it is very important to find a system to recover the excess in order to optimize its use. In this context, hydrogen is considered a very promising candidate to fulfill this function and could become a highly developed energy vector in the future. The very numerous works undertaken over the past decade for the production of electricity by hydrogen fuel cells bear witness to this. The objective of this study is to test a more reliable solar energy storage system by using fuel cell technology. To achieve this, three steps have been necessary: (i) make an electrolyser using materials, (ii) produce hydrogen using a system of PV panels and (iii) convert the hydrogen produced into electricity through a fuel cell. The results obtained indicate a production of 0.020 m^3 of hydrogen after 150 min with a yield of 85.86%. The production of electricity by a 2 V fuel cell gives an efficiency of 0.0042%. Even if this value is low, a part of the lost energy has been recovered. In view of these results, the improvement of the device for converting chemical energy into electricity deserves to be deeply explored in West Africa.
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